Instruction Manual MSC710 MSC710-U MSC710-I

Transcription

1 Instruction Manual MSC710 MSC710-U MSC710-I

2 Sensor controller for inductive displacement and gauging sensors series LVDT MICRO-EPSILON MESSTECHNIK GmbH & Co. KG Koenigbacher Strasse Ortenburg / Germany Tel. +49 (0) 8542 / Fax +49 (0) 8542 / info@micro-epsilon.de Certified acc. to DIN EN ISO 9001: 2008

3 Contents 1. Safety Symbols Used Warnings Notes on CE Identification Proper Use Proper Environment Functional Principle, Technical Data Functional Principle Design Technical Data Delivery Unpacking Storage Installation and Assembly Precautions Electronic Unit Power Supply, Sensor and Signal Output Power Supply and Signal Sensor Equipment Operation Startup Setting Oscillator Frequency and Phase Compensation Sensor Excitation Voltage Zero Point Signal Gain Examples... 24

4 6. Operation Service, Repair Warranty Decommissioning, Disposal... 28

5 Safety 1. Safety The handling of the sensor assumes knowledge of the instruction manual. 1.1 Symbols Used The following symbols are used in this instruction manual: Indicates a hazardous situation which, if not avoided, may result in minor or moderate injury. Indicates a situation which, if not avoided, may lead to property damage. Indicates a user action. i Indicates a user tip. 1.2 Warnings Connect the power supply and the display/output device in accordance with the safety regulations for electrical equipment. > > Danger of injury > > Damage to or destruction of the controller and/or the sensor Avoid banging and knocking the sensor. > > Damage to or destruction of the controller The power supply may not exceed the specified limits > > Damage to or destruction of the controller and/or the sensor Protect the sensor cable against damage > > Destruction of the sensor > > Failure of the measuring device Page 5

6 Safety 1.3 Notes on CE Identification The following applies to the measuring device series 710: EU directive 2014/30/EU EU directive 2011/65/EU, RoHS category 9 Products which carry the CE mark satisfy the requirements of the quoted directives and the European standards (EN) listed therein. The EC declaration of conformity is kept available according to EC regulation, article 10 by the authorities responsible at MICRO-EPSILON MESSTECHNIK GmbH & Co. KG Königbacher Straße Ortenburg / Germany The measuring system is designed for use in industry and satisfies the requirements. 1.4 Proper Use The MSC710 measuring system is designed for use in industrial areas. It is used to operate inductive displacement sensors based on the LVDT principle (Linear Variable Differential Transformer). The measuring system may only be operated within the limits specified in the technical data, see Chap The system should only be used in such a way that in case of malfunction or failure personnel or machinery are not endangered. Additional precautions for safety and damage prevention must be taken for safety-related applications. Page 6

7 Safety 1.5 Proper Environment Temperature: 0 to +70 C (+32 to +158 F) electronic Humidity: 5-95 % (no condensation) Ambient pressure: atmospheric pressure Protection class: IP 67 IP 50 (DIN mounting rail) Storage temperature: -40 to +85 C (-40 to 185 F) Vibration/Shock: EN Page 7

8 Functional Principle, Technical Data 2. Functional Principle, Technical Data 2.1 Functional Principle The MSC710 is a single-channel miniature sensor controller for the operation of inductive displacement sensors based on the LVDT principle (Linear Variable Differential Transformer). An electronic oscillator excites the primary coil with an alternating current of a constant frequency. The frequency, amplitude and the phase compensation can be set with DIP switches for best operation mode, see Chap. 5. The electronic signal conditioning unit transforms the differential signal of the two secondary coils into a stable direct voltage output signal. With the setting possibilities for zero point and gain, see Chap. 5., the user can adapt the equipment to the task to be performed. If the plunger is moved into the sensor, this results in an increase of the output voltage, if the plunger is pulled out further, this results in a decrease of the output signal. Change the inputs sec+ and sec-, see Chap , if the output signal should decrease when the plunger is moved in. 20 ma 10 V Signal 12 ma 6 V 4 ma 2 V 0 % 50 % 100 % Plunger Measuring range Sensor Page 8

9 Functional Principle, Technical Data 2.2 Design A complete measuring channel consists of Sensor Controller Sensor cable Power supply and output cable The controller contains - Oscillator, demodulator, and amplifier with low-pass filter; - Setting options for oscillator frequency, amplitude and the phase compensation, zero point and gain. Any displacement sensors that work by the LVDT principle can be connected to the amplifier electronics. However, if sensors of other manufacturers are used you should check their functionality in conjunction with the controller. MICRO-EPSILON recommends the inductive displacement sensors and gauging sensors of the indusensor LVDT series because they are optimally coordinated with the electronics. 2.3 Technical Data Model MSC710-U MSC710-I Power supply VDC Current input ma Supply protection Reverse-polarity and overvoltage protection Sensors for LVDT sensors Sensor excitation mv eff 1/2/5 khz Input impedance Sensor 10 kohm Adjustments (trim-pot) Output Linearity Gain Zero Voltage Current % FSO ±50 % FSO VDC 1 - < 0.02 % FSO ma 2 Page 9

10 Functional Principle, Technical Data Model MSC710-U MSC710-I Noise Output filter Output protection Operating temperature Temperature stability Protection class Operation Storage < 1.5 mv eff 3 < 15 mv ss Low pass, 300 Hz (-3 db) < 3 μa eff 3 < 30 μa ss Protection against open circuit and short-circuit C ( F) C ( F) < 0.01 %/ C IP 67 (Standard housing) IP 50 (Mounting rail) Dimensions LxWxH 52 x 50 x 35 mm Weight Housing material i 80 g Copolymer ABS, interior coating: vaporized with aluminum The output signal is limited to 4 ma up to 22 ma for controller with current output. FSO = Full Scale Output 1) R a = 1 kohm 2) Load < 500 Ohm 3) RMS AC measuring, 3 Hz khz with 5 khz sensor frequency Page 10

11 Delivery 3. Delivery 3.1 Unpacking 1 Controller 1 Instruction manual 1 Screwdriver Check the delivery for completeness and shipping damage immediately after unpacking. In case of damage or missing parts, please contact the manufacturer or supplier immediately. 3.2 Storage Storage temperature: -40 up to +85 C (-40 to +185 F) Humidity: 5-95 % (no condensation) Page 11

12 Installation and Assembly 4. Installation and Assembly 4.1 Precautions The sensor cable and the power supply/output cable must not be exposed to sharp-edged or heavy objects. Check before the equipment is started all the plug connectors for tightness of fit. 4.2 Electronic Unit Fasten the compact electronic units of series MSC710 at the housing corners by means of two screws M4. 26 (1.02) 50 (1.97) 38 (1.50) 35 (1.38) 21 (.83) ø9 (dia.. 35) 52 (2.05) 40 (1.57) Mounting holes Cable sleeve ø4.2 (dia..19) Fig. 1 Dimensions of the controller, dimensions in mm (inches), not to scale Page 12

13 Installation and Assembly 4.3 Power Supply, Sensor and Signal Output The power supply/output cable PC710-6/4 (available as an option) has a bend radius of 24 mm (minimum). All the connections for power supply / sensors / signal output are located on the electronics, see Fig. 7. Cable characteristics Diameter cable: mm Diameter of wire: mm 2 (AWG 28-26) Diameter of wire isolation: mm Wiring The housing has to be opened in order to connect the sensors, see Chap , and wire the output and supply cable, see Chap Undo the screws. Pass the sensor and signal cables through the cable sleeves. Install terminal. Do not strip off the strands, see Fig. 4. Use proper pliers. Connect the shielding of the supply/output cable and sensor cable with a flat connector. Use crimping pliers to make the crimped connection. Assemble the unit and tighten the screws. Page 13

14 Installation and Assembly 7 (0.28) N x 2.54 (0.1) (.64) Fig. 2 Before cabling Insulation displacement connector Cut the strands off directly after the connector. 14 (0.55) 9 (0.35) 4.5 (0.18) Fig. 3 After cabling 2 (0.08) 2.5 (0.1) 3.4 (0.13) (N-1) x 2.54 (0.1) N = Number of contacts i i The strands may not protrude! Insulation visible Fig. 4 Installation sequence strands with insulation displacement connector The insulation displacement connector, see Fig. 2, see Fig. 3, see Fig. 4, may be pressed only once. A replacement connector kit is included. The insulation displacement connection must be made at the insulation. Shrink during shortening of the cable of DTA-xG8 series on each strand the enclosed shrinking hose (shrink temperature T max = 130 C) before assembly of the insulation displacement connector (IDC) Page 14

15 Installation and Assembly Power Supply and Signal X3 Shield X1 Shield Output Ognd Pgnd power 1 1 mid1 mid2 secsec+ primprim+ X4 X5 Screen Signal Signal ground Ground Power supply yellow green brown white PC710-6/4 Optional power supply and output cable, 6 m (20 ) long Fig. 5 Pin assignment terminal block X3, X Sensor If the plunger is moved into the sensor, this results in an increase of the output voltage, if the plunger is pulled out further, this results in a decrease of the output signal. Change the inputs sec+ and sec- if the output signal should decrease when the plunger is moved in. Page 15

16 Installation and Assembly X3 Output Shield Ognd Pgnd power X1 Shield 1 1 X4 mid1 mid2 secsec+ primprim+ X5 Secondary coil + Secondary coil - Center tab Primary coil - Primary coil + Screen sensor cable Magnetic core Plunger Fig. 6 Pin assignment terminal block X1, X5 i The standard sensor cable has a length of 3 m. Terminal block X5 Coil Cable 1 DTA-CA- DTA-CR- C701-x Wire 1 DTA-LA- Solder pin 1 DTA-TA- Cable 1 DTA-G8 sec+ Pin 6 white white 1 white sec- Pin 5 Secondary brown black 2 black mid1 Pin 4 grey grey 5 grey prim- Pin 2 yellow yellow 4 brown Primary prim+ Pin 1 green green 3 blue 1) The colors and pins listed apply to MICRO-EPSILON displacement sensors. Page 16

17 Equipment Operation 5. Equipment Operation 5.1 Startup Check the correct wiring of the sensor connections, signal cables and voltage connections, before you connect the electronic unit to the power supply and before you turn on power, see Chap. 4. Perform the basic setting of the electronic unit, see Chap Turn on the power supply afterwards. Output Ognd Pgnd power X4 X3 Shield I U J7 J6 U mid1 mid2 X5 secsec+ primprim+ 1 1 X1 Shield R3 J2 ON Test J3 R2 J5 limit ON ON Frequ. J4 Gain R J1 ON Fig. 7 Electronic unit Page 17

18 Equipment Operation 5.2 Setting Connect the sensor before starting, see Chap Set the controller to the specific type of sensor. Differentiate the cases: the plunger respectively the sensor can be adjusted mechanical during the settings (step , 5a... 8a) the plunger respectively the sensor is fixed to the target (step , 5b... 8b) 1. Set the frequency with J4, see Chap Set the phase with J2, see Chap Set the supply voltage for the sensor with J1, see Chap Move switch S1 and S2 at J3, see Fig. 7, to ON. Plunger respectively the sensor can be adjusted mechanical during the settings. See the examples A and B, see Chap Plunger respectively the sensor is fixed to the target during the settings. See the example C, see Chap a. Set the desired output signal with R1, see Fig. 7, for the sensor in middle-position. 5b. Set the desired output signal with R1, see Fig. 7, for the start position. 6a. Move switch S1 at J3 to OFF. 6b. Move switch S1 and S2 at J3 to OFF. 7a. Move plunger until the output signal is the same as set in point 5a. Magnetic core is in middle-position. 7b. Displace the plunger respectively the sensor to the start position. Use R2, see Fig. 7, to set the output to the same value as in point 5b. 8a. Displace the plunger respectively the sensor to the end position and use R3 to set the amplification. End of setting. 8b. Displace the plunger respectively the sensor to the end position and use R3 to set the amplification. End of setting. Page 18

19 Equipment Operation Oscillator Frequency and Phase Compensation Set the frequency of the oscillator with the 2-pole DIP switch J4, see Fig. 7, for the position on the board. i Sensor Set the phase with J2, see Fig. 7. Values are quoted for displacement sensors from MICRO-EPSILON. If other makes are used you must apply the data published by the manufacturer in question. Measuring range Oscillator frequency Switch J4 Frequency Switch J2 Phase DTA-1x ±1 mm 5 khz 1 OFF 1 ON 2 ON 2 ON 3 OFF DTA-1G8 ±1 mm 5 khz 1 OFF 1 OFF 2 ON 2 OFF 3 ON DTA-3x ±3 mm 5 khz 1 OFF 1 OFF 2 ON 2 ON 3 OFF Page 19

20 Equipment Operation Sensor Measuring range Oscillator frequency Switch J4 Frequency Switch J2 Phase DTA-3G8 ±3 mm 5 khz 1 OFF 1 OFF 2 ON 2 OFF 3 ON DTA-5x ±5 mm 5 khz 1 OFF 1 OFF 2 ON 2 OFF 3 OFF DTA-5G8 ±5 mm 5 khz 1 OFF 1 OFF 2 ON 2 OFF 3 ON DTA-10x ±10 mm 2 khz 1 ON 1 OFF 2 OFF 2 ON 3 OFF DTA-10G8 ±10 mm 5 khz 1 OFF 1 OFF 2 ON 2 OFF 3 ON Page 20

21 Equipment Operation Sensor Measuring range Oscillator frequency Switch J4 Frequency Switch J2 Phase DTA-15x ±15 mm 1 khz 1 OFF 1 OFF 2 OFF 2 OFF 3 ON DTA-25x ±25 mm 1 khz 1 OFF 1 OFF 2 OFF 2 OFF 3 OFF 4 ON Page 21

22 Equipment Operation Sensor Excitation Voltage Set the supply voltage for the sensor with the 4-pole DIP switch J1, see Fig. 7, for the position on the board). i Allow the measuring system to warm up for about two minutes before the first measurement or calibration. Sensor Measuring range Switch J1 DTA-1x ±1 mm 1 OFF 2 OFF 3 OFF 4 ON Sensor Measuring range Switch J1 DTA-5x ±5 mm 1 ON 2 OFF 3 ON DTA-1G8 ±1 mm 1 ON 2 ON 3 OFF DTA-5G8 ±5 mm 1 ON 2 OFF 3 OFF DTA-3x ±3 mm 1 OFF 2 OFF 3 ON DTA-10x ±10 mm 1 OFF 2 ON 3 OFF DTA-3G8 ±3 mm 1 ON 2 ON 3 OFF DTA-10G8 ±10 mm 1 ON 2 OFF 3 OFF Page 22

23 Equipment Operation Sensor Measuring range Switch J1 Sensor Measuring range Switch J1 DTA-15x ±15 mm 1 ON DTA-25x ±25 mm 1 OFF 2 OFF 2 OFF 3 OFF 3 OFF Zero Point Prior to calibration or measurement the sensor must be connected to the controller. The electrical zero point can be shifted about ±50 % of the measuring range. Examples for zero point adjustment, see Chap Signal Gain The signal gain can be shifted about -20 % up to +350 % of the measuring range. Examples for gain adjustment, see Chap If the plunger is moved into the sensor, this results in an increase of the output voltage, if the plunger is pulled out further, this results in a decrease of the output signal. Move the plunger by a defined range, in the ideal case by the complete linear measuring range and adjust with R3 trim-pot the desired output voltage/current. It makes no difference, whether the plunger is pushed in or pulled out, except that this leads to a increase respectively decrease of the output signal. Page 23

24 Equipment Operation Examples Example A Measuring range: ±10 mm, used measuring range: mm, Output signal: VDC ( ma) Set the frequency with J4, see Chap Set the phase with J2, see Chap Set the supply voltage for the sensor with J1, see Chap Set the S1 and S2 of J3, see Fig. 7, to ON. Adjust the output to 6.00 VDC respectively ma (current output) with R1, see Fig. 7. Middle-position of the sensor. Set the S1 of J3 to OFF. Move the plunger until you get 6 VDC respectively 12 ma on the output (electrical and mechanical output are adjusted). Core is in center position. Move plunger about +10 mm. Adjust gain with R3 until the output has 10 VDC respectively 20 ma. i The plunger respectively the sensor can be adjusted mechanical during the settings. 10 V 2 V -10 mm +10 mm Measuring range Page 24

25 Equipment Operation Example B Measuring range: ±10 mm, used measuring range: mm, Output signal: VDC ( ma) Set the frequency with J4, see Chap Set the phase with J2, see Chap Set the supply voltage for the sensor with J1, see Chap Set the S1 and S2 of J3, see Fig. 7, to ON. Adjust the output to 2.00 VDC respectively 4.00 ma (current output) with R1, see Fig. 7. Middle-position of the sensor. Set the S1 of J3 to OFF. Move the plunger until you get 2 VDC respectively 4 ma on the output (electrical and mechanical output are adjusted). Core is in center position respectively start of measuring range. Move the plunger about +10 mm. Adjust gain with R3 until the output has 10 VDC respectively 20 ma. i The plunger respectively the sensor can be adjusted mechanical during the settings. 10 V 2 V -10 mm +10 mm Measuring range Page 25

26 Equipment Operation Example C Measuring range: ±10 mm, start position X1... end position X2, Output signal: VDC ( ma) Set the frequency with J4, see Chap Set the phase with J2, see Chap Set the supply voltage for the sensor with J1, see Chap Set the S1 and S2 of J3, see Fig. 7, to ON. Adjust the output to 2 VDC respectively 4 ma with R1, see Fig. 7. Set the S1 and S2 of J3 to OFF Move the plunger to start position X1. Adjust output to 2 VDC respectively 4 ma with R2. Move plunger to end position X2. Adjust gain with R3 until the output has 10 VDC respectively 20 ma. i The plunger respectively the sensor are fixed to the target. 10 V 2 V X1 X2-10 mm +10 mm Measuring range Page 26

27 Operation 6. Operation Prior to the start of a measurement or setting the amplifier unit with the sensor connected should warm up for approximately 2 minutes with the supply voltage turned on. The operating instructions for the sensors that are used must always be followed. If a sensor is replaced, the channel must be calibrated new. 7. Service, Repair In the event of a defect on the controller or sensor please send us the effected parts for repair or exchange. In the case of faults the cause of which is not clearly identifiable, the whole measuring system must be sent back to: MICRO-EPSILON MESSTECHNIK GmbH & Co. KG Königbacher Str Ortenburg / Germany Tel. +49 (0) 8542/ Fax +49 (0) 8542/ info@micro-epsilon.de Page 27

28 Warranty 8. Warranty All components of the device have been checked and tested for perfect function in the factory. In the unlikely event that errors should occur despite our thorough quality control, this should be reported immediately to MICRO-EPSILON MESSTECHNIK. The warranty period lasts 12 months following the day of shipment. Defective parts, except wear parts, will be repaired or replaced free of charge within this period if you return the device to MICRO-EPSILON. This warranty does not apply to damage resulting from abuse of the equipment and devices, from forceful handling or installation of the devices or from repair or modifications performed by third parties. Repairs must be exclusively done by MICRO-EPSILON. No other claims, except as warranted, are accepted terms of the purchasing contract apply in full. MICRO-EPSILON will specifically not be responsible for any consequential damage. MICRO-EPSILON always strives to supply customers with the finest and most advanced equipment. Development and refinement is therefore performed continuously and the right for design changes without prior notice is accordingly reserved. For translation in other languages the data and statements in the German language operation manual are to be taken as authoritative. 9. Decommissioning, Disposal Disconnect the power supply and output cable on the controller. Incorrect disposal may cause harm to the environment. Dispose of the device, its components and accessories, as well as the packaging materials in compliance with the applicable country-specific waste treatment and disposal regulations of the region of use. Page 28

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32 MICRO-EPSILON MESSTECHNIK GmbH & Co. KG Königbacher Str Ortenburg / Germany Tel. +49 (0) 8542 / Fax +49 (0) 8542 / info@micro-epsilon.de X B091096HDR MICRO-EPSILON MESSTECHNIK *X B09*